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This book explores energy efficiency solutions, offering lucid explanations coupled with actionable guidance. It is an indispensable reference for professionals such as designers, analysts, and individuals keen on mastering energy efficiency. It starts with an introduction to the foundational principles of thermodynamics and energy efficiency, setting the stage for deeper comprehension of subsequent topics. It further elucidates the concept of exergy, shedding light on the measurement of energy quality and its significance in energy efficiency evaluations. A pivotal focus of the book is on the Energy Return on Investment (EROI) and its implications for the competitive landscape of oil production. Readers will gain valuable insights into the integral role that energy efficiency plays in enhancing the overall efficiency and profitability of oil-producing entities. The book underscores the pragmatic application of energy efficiency analyses specifically within the realm of oil production. This book is a compendium of best practices, illustrative case studies, and contemporary methodologies in energy efficiency analysis. This immersive, hands-on approach empowers designers and analysts with the requisite tools and expertise to drive optimal energy utilization in oil production facilities.
Petroleum industry and trade. --- Thermoelectric materials. --- Electric power-plants. --- Materials. --- Catalysis. --- Force and energy. --- Thermoelectrics. --- Power Stations. --- Materials for Energy and Catalysis.
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This open access book presents a comprehensive exploration of diffusion metamaterials that control energy and mass diffusion. Currently, if from the perspective of governing equations, diffusion metamaterials and wave metamaterials (pioneered by J. B. Pendry in the 1990s) are recognised as the two most prominent branches in the field of metamaterials. These two branches differ in their emphasis on the diffusion equation (as the governing equation) and time-dependent characteristic lengths in diffusion metamaterials, as opposed to the wave equation (as the governing equation) and time-independent characteristic lengths in wave metamaterials. Organized into three distinct parts – 'Thermal Diffusion Metamaterials', 'Particle Diffusion Metamaterials', and 'Plasma Diffusion Metamaterials' – this book offers a rigorous exploration spanning physics, engineering, and materials science, aimed at advancing our understanding of diffusion processes controlled by diffusion metamaterials. Incorporating foundational theory, computational simulations, and laboratory experiments, the book equips researchers and scholars across these disciplines with comprehensive methods, insights, and results pivotal to the advancement of diffusion control. Beyond facilitating interdisciplinary discourse, the book serves as a catalyst for innovative breakthroughs at the crossroads of physics, thermodynamics, and materials science. Essentially, readers will acquire profound insights that empower them to spearhead advancements in diffusion science (diffusionics) and the engineering of metamaterials.
Thermodynamics. --- Thermoelectric materials. --- Heat engineering. --- Heat transfer. --- Mass transfer. --- Statistical Physics. --- Condensed matter. --- Building materials. --- Thermoelectrics. --- Engineering Thermodynamics, Heat and Mass Transfer. --- Condensed Matter Physics. --- Structural Materials. --- Heat --- Statistical physics. --- Transmission.
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